query_id stringlengths 10 10 | query stringlengths 5 161 | lesson_id stringclasses 34
values |
|---|---|---|
NDQ_000426 | The fourth supercontinent to form was | L_0012 |
NDQ_000427 | Earths first crust was probably made of | L_0012 |
NDQ_000428 | The supercontinent in question 1 formed about | L_0012 |
NDQ_000429 | The earliest life on Earth | L_0012 |
NDQ_000430 | Early Earth had | L_0012 |
NDQ_000431 | How do cells make copies of themselves? | L_0012 |
NDQ_000432 | Which of the following is true? | L_0012 |
NDQ_000433 | Earths earliest life forms | L_0012 |
NDQ_000434 | The earliest organisms to photosynthesize | L_0012 |
NDQ_000435 | Continents form when | L_0012 |
NDQ_000437 | Eukaryotes first evolved about | L_0012 |
NDQ_000438 | Which of the following types of organisms evolved first? | L_0012 |
NDQ_000446 | Prokaryoes are more common than eukaryotes. | L_0012 |
NDQ_000448 | DNA is short for deoxyribonucleic acid | L_0012 |
NDQ_000451 | Rodinia was the first supercontinent. | L_0012 |
NDQ_000453 | Early in Earth history mantle convection was super fast. | L_0012 |
NDQ_000454 | The evolution from prokaryotes to eukaryotes to multi-cellular organisms took a few million years. | L_0012 |
NDQ_000455 | Nucleic acids in living things include DNA and RNA. | L_0012 |
NDQ_000456 | Continental crust first appeared on Earth about 2 billion years ago. | L_0012 |
NDQ_000457 | The first continents on Earth were very large compared with those today. | L_0012 |
NDQ_000458 | Pangaea was the first supercontinent to form on Earth. | L_0012 |
NDQ_000459 | Life may have originated on Earth more than once. | L_0012 |
NDQ_000460 | The first oxygen on Earth combined with iron to form iron oxide. | L_0012 |
NDQ_000461 | Some of the oxygen in Earths early atmosphere became ozone. | L_0012 |
NDQ_000462 | The first photosynthetic organisms were most like modern E. coli. | L_0012 |
NDQ_000463 | There are no longer any prokaryotes living on Earth. | L_0012 |
NDQ_000464 | Ediacara fauna evolved toward the end of the Precambrian Era. | L_0012 |
NDQ_000465 | first organisms to make food by photosynthesis | L_0012 |
NDQ_000466 | type of organism that contains a nucleus in its cell(s) | L_0012 |
NDQ_000467 | process that added oxygen to Earths early atmosphere | L_0012 |
NDQ_000468 | gas that protects Earth from harmful radiation | L_0012 |
NDQ_000469 | type of organism that lacks a nucleus in its cell(s) | L_0012 |
NDQ_000470 | organic compound that stores genetic information | L_0012 |
NDQ_000471 | waste product of photosynthesis | L_0012 |
NDQ_000564 | Possible sources of water in a lake include | L_0015 |
NDQ_000565 | The Great Lakes | L_0015 |
NDQ_000566 | Rift lakes form because of | L_0015 |
NDQ_000567 | Lakes | L_0015 |
NDQ_000568 | Wetlands that have trees include | L_0015 |
NDQ_000569 | A stream is | L_0015 |
NDQ_000570 | A broad curve in a river is a | L_0015 |
NDQ_000571 | A bog is generally covered with | L_0015 |
NDQ_000572 | Why are wetlands useful? | L_0015 |
NDQ_000573 | Two water droplets fall on opposite sides of a divide. Those droplets will | L_0015 |
NDQ_000575 | A small stream that flows into a bigger stream is called a | L_0015 |
NDQ_000576 | When a river reaches its mouth, it may drop its sediment and form a | L_0015 |
NDQ_000578 | A brook is a type of wetland. | L_0015 |
NDQ_000581 | A stream always flows from a higher to a lower elevation. | L_0015 |
NDQ_000583 | The bottom of a river channel is called the bank. | L_0015 |
NDQ_000584 | Streams usually begin with water from snow melt and possibly springs. | L_0015 |
NDQ_000585 | A single stream always has just one source. | L_0015 |
NDQ_000586 | A single stream will have a single water source. | L_0015 |
NDQ_000587 | Moving water slows down when it enters a body of still water. | L_0015 |
NDQ_000588 | A rivers basin is also called its bed. | L_0015 |
NDQ_000589 | The Great Lakes are in basins carved by glaciers. | L_0015 |
NDQ_000590 | A divide is the lowest point between two river basins. | L_0015 |
NDQ_000591 | A stream is a small river. | L_0015 |
NDQ_000592 | A floodplain may be very wide and flat. | L_0015 |
NDQ_000593 | All lakes have fresh water. | L_0015 |
NDQ_000594 | Sunlight may not be able to reach the bottom of a deep lake. | L_0015 |
NDQ_000595 | The Great Lakes are volcanic lakes. | L_0015 |
NDQ_000596 | small body of standing water | L_0015 |
NDQ_000597 | event in which a body of water overflows its banks | L_0015 |
NDQ_000598 | area that is covered with water or has soggy soil during all or part of the year | L_0015 |
NDQ_000599 | any body of fresh water that flows downhill in a channel | L_0015 |
NDQ_000600 | large body of fresh water that flows downhill in a channel | L_0015 |
NDQ_000601 | large body of standing water | L_0015 |
NDQ_000602 | all of the land drained by a river system | L_0015 |
NDQ_001633 | Which best describes a geostationary orbit? | L_0040 |
NDQ_001635 | Scientific satellites can be used | L_0040 |
NDQ_001637 | Which of the following is not true of GPS? | L_0040 |
NDQ_001638 | In which way can a satellite be used to help with safety? | L_0040 |
NDQ_001641 | Computer maps | L_0040 |
NDQ_001646 | Satellites can be used to track the paths of hurricanes. | L_0040 |
NDQ_001649 | All satellites orbit Earth from east to west. | L_0040 |
NDQ_001651 | Communications satellites have polar orbits. | L_0040 |
NDQ_001652 | A polar orbit is a shorter orbit than a geostationary orbit. | L_0040 |
NDQ_001653 | Some weather satellites have geostationary orbits. | L_0040 |
NDQ_001654 | GPS can only be done with a minimum of 4 satellites. | L_0040 |
NDQ_001655 | Polar orbits are closer to Earth than geostationary orbits. | L_0040 |
NDQ_001656 | Satellites in polar orbits always remain over Earths north or south pole. | L_0040 |
NDQ_001657 | GIS stands for Geostationary Information System. | L_0040 |
NDQ_001658 | Satellites identify vegetation by the color of light it reflects. | L_0040 |
NDQ_001659 | Computers increase the accuracy of maps made from satellite images and satellite data. | L_0040 |
NDQ_001660 | The higher above Earth that a satellite orbits the smaller the view it is able to see. | L_0040 |
NDQ_001661 | Satellites can help you locate your precise position on Earths surface. | L_0040 |
NDQ_001662 | A GPS receiver detects lines of latitude and longitude. | L_0040 |
NDQ_001663 | Any type of information that can be linked with locations can be used to make a map. | L_0040 |
NDQ_001664 | U.S. government agency that has launched a fleet of scientific satellites | L_0040 |
NDQ_001665 | type of orbit that allows a satellite to see all of Earths surface in less than a day | L_0040 |
NDQ_001666 | artificial body that orbits Earth | L_0040 |
NDQ_001667 | system of satellites used to locate exact positions on Earths surface | L_0040 |
NDQ_001668 | device that detects radio signals from satellites to determine its position on Earths surface | L_0040 |
NDQ_001669 | type of orbit that allows a satellite to stay over the same location on Earths surface | L_0040 |
NDQ_001670 | system that links GPS information with other types of information | L_0040 |
NDQ_001671 | A weather satellite with a geostationary orbit could be used to observe | L_0040 |
NDQ_001672 | A satellite with a polar orbit maintains a distance from Earths surface of | L_0040 |
NDQ_001673 | U.S. government agencies that use scientific satellites to gather information include | L_0040 |
NDQ_001674 | Information gathered by scientific satellites includes | L_0040 |
NDQ_001675 | To use GPS to find your location on Earths surface, you need radio signals from at least | L_0040 |
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